Shell

[Image: “Vaulted Chamber” by Matthew Simmonds].

While writing the previous post, I remembered the work of Matthew Simmonds, a British stonemason turned sculptor who carves beautifully finished, miniature architectural scenes into otherwise rough chunks of rock.

[Image: “Sinan: Study” by Matthew Simmonds].

Simmonds seems primarily to use sandstone, marble, and limestone in his work, and focuses on producing architectural forms either reminiscent of the ancient world or of a broadly “sacred” character, including temples, church naves, and basilicas.

[Image: “Basilica III” by Matthew Simmonds].

You can see many more photos on his own website or over at Yatzer, where you, too, might very well have seen these last year.

[Image: “Fragment IV” by Matthew Simmonds].

Someone should commission Simmonds someday soon to carve, in effect, a reverse architectural Mt. Rushmore: an entire hard rock mountain somewhere sculpted over decades into a warren of semi-exposed rooms, cracked open like a skylight looking down into a deeper world, where Simmonds’s skills can be revealed at a truly inhabitable spatial scale.

(Previously: Emerge).

Then we descend

[Image: Descending into Mammoth Cave, from Beneath the surface; or, the wonders of the underground world by W.H. Davenport Adams].

By way of JF Ptak Science Books, I found myself reading through an old book called Beneath the surface; or, the wonders of the underground world by W.H. Davenport Adams this weekend, a travelogue from 1876 exploring subterranean landscapes around the world, including what is now Mammoth Cave National Park.

“Then we descend,” Adams writes upon his arrival at the cave, “by a small pathway excavated among the rocks, until we discover, in the sides of the mountain, and at the bottom of a funnel-shaped cavity, overgrown with verdure, an opening so low and narrow that two people can with difficulty enter at once.”

Slipping through, they pass into “a labyrinth of caves” consisting of seemingly endless sloping rooms, shafts, and corridors.

As my own phrasing there indicates, these spaces are described by way of architectural analogy: as naves and vestibules, chambers and rotundas. In fact, their perceived architectural characteristics are highlighted even on the acoustic level. One cave, for example, is a place “where the voice resounds and, lingering, reverberates, like the strain of an organ through dim cathedral aisles.”

[Image: A room in Mammoth Cave known as “The Maelstrom,” from Beneath the surface; or, the wonders of the underground world by W.H. Davenport Adams].

Continuing on their downward trek, Adams & Co. soon wander into “a chamber nearly 320 feet in circuit, whose roof rises like the stand of an immense nave. Its form, its grandeur, its magnitude (it could accommodate five thousand persons), and the strange architectural-like stalactites which embellish it, have procured it the name of the Gothic Church.”

Indeed, standing amidst this ersatz cathedral, and “thanks to the power of imagination, and the varying influence of the light, we here distinguish all the details of a medieval nave, pillars, and columns, and corbels and ogives.”

Among many things, what interests me here is how the interior of the earth is seen as if through the haze of a projection, with architectural forms emerging where, in fact, only inhuman geological processes at work—but also, in the opposite direction, the implied observation here that, in an age of masonry construction, architecture and geology were, in effect, natural cousins, lending themselves to mutual comparison far more easily than in today’s time of glass and steel construction.

[Image: A vast underground room filled with “a silent, terrible solitude,” from Beneath the surface; or, the wonders of the underground world by W.H. Davenport Adams].

To put this another way, many streets in Manhattan are often quite appropriately described as “canyons,” not only due to their perceived depth—that is, given the towering buildings on either side, as if pedestrians merely wander at the bottom of artificial slot canyons—but also due to the geological materials those buildings were made from.

However, following widespread transformations in global building construction, our buildings today are now more likely to be reflective—even dangerously so—or partially transparent, whether this is due to the use of glass curtain walls or shadow-annihilating polished titanium, with the effect that our urban environment is no longer particularly well-served by geological analogy.

In any case, the book’s flirtation with an architectural vocabulary is gradually abandoned as Adams and his colleagues venture deeper into the planet. They eventually find themselves standing somewhat uncomfortably surrounded by a “phantasmagoria” of black gypsum walls, all “covered with sparkling crystallizations,” in a vast room whose belittling proportions inspire feelings not of grandeur and religiosity but a kind of exhausted desolation.

Here, Adams writes, “you think yourself on one of those dead and naked planets, where mineral nature reigns in the bosom of a silent, terrible solitude; on some earth never warmed by the sun, and which is animated by no kind of life.”

[Image: An unfortunately rather low-res image from Beneath the surface; or, the wonders of the underground world by W.H. Davenport Adams].

The rest of the book—including the image seen immediately above this sentence—ventures elsewhere, into silver mines and glacial caves, even briefly passing by way of underground “artificial ice caves” for the premodern production and storage of ice.

I’m just a sucker for subterranea. Check it out if any of this sounds up your alley, and click through the archives of JF Ptak Science Books while you’re at it.

Subterranean Lightning Brigade

[Image: “Riggers install a lightning rod” atop the Empire State Building “in preparation for an investigation into lightning by scientists of the General Electric Company” (1947), via the Library of Congress].

This is hardly news, but I wanted to post about the use of artificial lightning as a navigational aid for subterranean military operations.

This was reported at the time as a project whose goal was “to let troops navigate about inside huge underground enemy tunnel complexes by measuring energy pulses given off by lightning bolts,” where those lightning bolts could potentially be generated on-demand by aboveground tactical strike teams.

Such a system would replace the use of GPS—whose signals cannot penetrate into deep subterranean spaces—and it would operate by way of sferics, or radio atmospheric signals generated by electrical activity in the sky.

The proposed underground navigational system—known as “Sferics-Based Underground Geolocation” or S-BUG—would be capable of picking up these signals even from “hundreds of miles away. Receiving signals from lighting strikes in multiple directions, along with minimal information from a surface base station also at a distance, could allow operators to accurately pinpoint their position.” They could thus maneuver underground, even in hundreds—thousands—of feet below the earth’s surface in enemy caves or bunkers.

Hundreds of miles is a very wide range, of course—but what if there is no natural lightning in the area?

Enter artificial military storm generators, or the charge of the lightning brigade.

Back in 2009, DARPA also put out of a request for proposals as part of something called Project Nimbus. NIMBUS is “a fundamental science program focused on obtaining a comprehensive understanding of the lightning process.” However, it included a specific interest in developing machines for “triggering lightning”:

Experimental Set-up for Triggering Lightning: Bidders should fully describe how they would attempt to trigger lightning and list all potential pieces of equipment necessary to trigger lightning, as well as the equipment necessary to measure and characterize the processes governing lightning initiation, propagation, and attachment.

While it’s easy enough to wax conspiratorial here about future lightning weapons or militarized storm cells—after all, DARPA themselves write that they want to understand “how [lightning] ties into the global charging circuit,” as if “the global charging circuit” is something that could be instrumentalized or controlled—I actually find it more interesting to speculate that generating lightning would be not for offensive purposes at all, but for guiding underground navigation.

[Image: Lightning storm over Boston; via Wikimedia/NOAA].

Something akin to a strobe light begins pulsing atop a small camp of unmarked military vehicles parked far outside a desert city known for its insurgent activities. These flashes gradual lengthen, both temporally and physically, lasting longer and stretching upward into the sky; the clouds above are beginning to thicken, grumbling with quiet rolls of thunder.

Then the lightning strikes begin—but they’re unlike any natural lightning you’ve ever seen. They’re more like pops of static electricity—a pulsing halo or toroidal crown of light centered on the caravan of trucks below—and they seem carefully timed.

To defensive spotters watching them through binoculars in the city, it’s obvious what this means: there must be a team of soldiers underground somewhere, using artificial sferics to navigate. They must be pushing forward relentlessly through the sewers and smuggling tunnels, crawling around the roots of buildings and maneuvering through the mazework of infrastructure that constitutes the city’s underside, locating themselves by way of these rhythmic flashes of false lightning.

Of course, this equipment would eventually be de-militarized and handed down to the civilian sector, in which case you can imagine four friends leaving REI on a Friday afternoon after work with an artificial lightning generator split between them; no larger than a camp stove, it would eventually be set up with their other weekend caving equipment, used to help navigate through deep, stream-slick caves an hour and a half outside town, beneath tall mountains where GPS can’t always be trusted.

Or, perhaps fifty years from now, salvage teams are sent deep into the flooded cities of the eastern seaboard to look for and retrieve valuable industrial equipment. They install an artificial lightning unit on the salt-bleached roof of a crumbling Brooklyn warehouse before heading off in a small armada of marsh boats, looking for entrances to old maintenance facilities whose basement storage rooms might have survived rapid sea-level rise.

Disappearing down into these lost rooms—like explorers of Egyptian tombs—they are guided by bolts of artificial lightning that spark upward above the ruins, reflected by tides.

[Image: Lightning via NOAA].

Or—why not?—perhaps we’ll send a DARPA-funded lightning unit to one of the moons of Jupiter and let it flash and strobe there for as long as it needs. Called Project Miller-Urey, its aim is to catalyze life from the prebiotic, primordial soup of chemistry swirling around there in the Cthulhoid shadow of eternal ice mountains.

Millions and millions of years hence, proto-intelligent lifeforms emerge, never once guessing that they are, in fact, indirect descendants of artificial lightning technology. Their spark is not divine but military, the electrical equipment that sparked their ancestral line long since fallen into oblivion.

In any case, keep your eyes—and cameras—posted for artificial lightning strikes coming to a future military theater near you…

Landscapes of Inevitable Catastrophe

[Image: Illustration by David McConochie, courtesy of The Art Market, via The Guardian].

Last month, The Economist reported on the widespread presence of radioactive tailings piles—waste rock left over from Soviet mining operations—in southern Kyrgyzstan. Many of the country’s huge, unmonitored mountains of hazardous materials are currently leaching into the local water supply.

In a particularly alarming detail, even if you wanted to avoid the danger, you might not necessarily know where to find it: “Fences and warning signs have been looted for scrap metal,” we read.

Frequent landslides and seasonal floods also mean that the tailings are at risk of washing downriver into neighboring countries, including into “Central Asia’s breadbasket, the Fergana Valley, which is home to over 10m people… A European aid official warns of a ‘creeping environmental disaster.'”

Attempts at moving the piles have potentially made things worse, releasing “radioactive dust” that might be behind a spike in local cancers.

In addition to the sheer aesthetic horror of the landscape—a partially radioactive series of river valleys, lacking in warning signs, that writer Robert Macfarlane would perhaps call “eerie,” a place where “suppressed forces pulse and flicker beneath the ground and within the air… waiting to erupt or to condense”—it’s worth noting at least two things:

One, there appears to be no end in sight; as The Economist points out, the neighboring countries “are hardly on speaking terms, so cross-border co-operation is non-existent,” and the costs of moving highly contaminated mine waste are well out of reach for the respective governments.

This means we can more or less confidently predict that, over the coming decades, many of these tailings piles will wash away, slowly but relentlessly, fanning out into the region’s agricultural landscape.

Once these heavy metals and flecks of uranium have dispersed into the soil, silt, and even plantlife, they will be nearly impossible to re-contain; this will have effects not just over the span of human lifetimes but on a geological timescale.

Second, most of these piles are unguarded: unwatched, unmonitored, unsecured. They contain radioactive materials. They are in a region known for rising religious extremism.

Given all this, surely finding a solution here is rather urgent, before these loose mountains of geological toxins assume an altogether more terrifying new role in some future news cycle—at which point, in retrospect, articles like The Economist‘s will seem oddly understated.

[Image: Hand-painted radiation sign at Chernobyl, via the BBC].

Indeed, our ability even to comprehend threats posed on a geologic timescale—let alone to act on those threats politically—is clearly not up to the task of grappling with events or landscapes such as these.

To go back to Robert Macfarlane, he wrote another article earlier this year about the specialized vocabulary that has evolved for naming, describing, or cataloging terrestrial phenomena. By contrast, he suggests, we now speak with “an impoverished language for landscape” in an era during when “a place literacy is leaving us.”

As Macfarlane writes, “we lack a Terra Britannica, as it were: a gathering of terms for the land and its weathers—terms used by crofters, fishermen, farmers, sailors, scientists, miners, climbers, soldiers, shepherds, poets, walkers and unrecorded others for whom particularised ways of describing place have been vital to everyday practice and perception.”

Channeling Macfarlane, where is the vocabulary—where are our cognitive templates—for describing and understanding these landscapes of long-term danger and slow catastrophe?

It often seems that we can stare directly into the wasteland without fear, not because there is nothing of risk there, but because our own words simply cannot communicate the inevitability of doom.

Horizon Line

[Image: Here’s another image from the same French rare-book seller seen in an earlier post; this one comes from Thomas Alcock’s Travels in Russia, Persia, Turkey and Greece, printed in 1831. The scene depicted here equally resembles some strange act of theatrical scenography—a geologic backdrop shaded to resemble urban space—and a horizon-spanning speculative megastructure by Étienne Louis-Boullée (previously)].

A Well-Tailored Landscape

[Image: Sewn geology; photo by Matthew Cox of Kit Up!].

Earlier this summer, packaging and apparel manufacturing firm ReadyOne Industries debuted a new line of products: “moldable camouflage kits that can be customized to mimic virtually any type of rock formation or similar type of terrain.”

The sewn geological forms seen here—in photos taken by Matthew Cox of Kit Up!—use a multi-spectral concealment system called “VATEC,” further described by ReadyOne as a “Portable Battlefield Cryptic Signature and Concealment” system.

In the process, they give the word “geotextile” a new level of literality.

[Image: Lifting up fake rocks; photo by Matthew Cox of Kit Up!].

While you can read a tiny bit more about the product over at both Kit Up! and ReadyOne, what interests me here is the sheer surreality of portable artificial geology made by a garment manufacturing firm, or pieces of clothing blown up to the scale of landscape.

The unexpected implication is that those rocks you see all around you might not only be fake—they might also be pieces of clothing: camouflage garments that already mimicked natural forms simply taken to their obvious end point in the form of pop-up rocks and well-tailored geology.

Village Design as Magnetic Storage Media

[Image: “Magnetic Field” by Berenice Abbott, from The Science Pictures (1958-1961)].

An interesting new paper suggests that the ritual practice of burning parts of villages to the ground in southern Africa had an unanticipated side-effect: resetting the ground’s magnetic data storage potential.

As a University of Rochester press release explains, the “villages were cleansed by burning down huts and grain bins. The burning clay floors reached a temperature in excess of 1000ºC, hot enough to erase the magnetic information stored in the magnetite and create a new record of the magnetic field strength and direction at the time of the burning.”

What this meant was that scientists could then study how the Earth’s magnetic field had changed over centuries by comparing more recent, post-fire alignments of magnetite in the ground beneath these charred building sites with older, pre-fire clay surrounding the villages.

The ground, then, is actually an archive of the Earth’s magnetic field.

If you picture this from above—perhaps illustrated as a map or floor plan—you can imagine seeing the footprint of the village itself, with little huts, buildings, and grain bins appearing simply as the outlines of open shapes.

However, within these shapes, like little windows in the surface of the planet, new magnetic alignments would begin to appear over decades as minerals in the ground slowly re-orient themselves with longterm shifts in the Earth’s magnetic field, like differently tiled geometries contrasting with the ground around them.

[Image: “Untitled” by Larry Bell (1962), via the L.A. Times].

What really blows me away here, though, is the much more abstract idea that the ground itself is a kind of reformattable magnetic data storage system. It can be reformatted and overwritten, its data wiped like a terrestrial harddrive.

While this obviously brings to mind the notion of the planetary harddrive we explored a few years ago—for what it’s worth, one of my favorite posts here—it also suggests something quite strange, which is that landscape architecture (that is, the tactical and aesthetic redesign of terrain) and strategies of data management (archiving, cryptography, inscription) might someday go hand in hand.

(Via Archaeology).

The Town That Creep Built

[Image: A curb in Hayward reveals how much the ground is drifting due to “fault creep”: the red-painted part is slowly, but relentlessly, moving north. Photo by Geoff Manaugh].

South of San Francisco, a whole town is being deformed by plate tectonics. These are the slow but relentless landscape effects known as “fault creep.”

An earlier version of this post was first published on The Daily Beast.

The signs that something’s not right aren’t immediately obvious, but, once you see them, they’re hard to tune out.

Curbs at nearly the exact same spot on opposite sides of the street are popped out of alignment. Houses too young to show this level of wear stand oddly warped, torqued out of synch with their own foundations, their once strong frames off-kilter. The double yellow lines guiding traffic down a busy street suddenly bulge northward—as if the printing crew came to work drunk that day—before snapping back to their proper place a few feet later.

This is Hollister, California, a town being broken in two slowly, relentlessly, and in real time by an effect known as “fault creep.” A surreal tide of deformation has appeared throughout the city.

[Image: “Fault creep” bends the curbs in Hollister; photo by Geoff Manaugh].

As if its grid of streets and single-family homes was actually built on an ice floe, the entire west half of Hollister is moving north along the Calaveras Fault, leaving its eastern streets behind.

In some cases, doors no longer fully close and many windows now open only at the risk of getting stuck (some no longer really close at all).

Walking through the center of town near Dunne Park offers keen observers a hidden funfair of skewed geometry.

[Image: 359 Locust Avenue, Hollister; photo by Geoff Manaugh].

For example, go to the house at 359 Locust Avenue.

The house itself stands on a different side of the Calaveras Fault than its own front walkway. As if trapped on a slow conveyor built sliding beneath the street, the walk is being pulled inexorably north, with the effect that the path is now nearly two feet off-center from the porch it still (for the time being) leads to.

[Image: The walkway is slowly creeping north, no longer centered with the house it leads to; photo by Geoff Manaugh].

In another generation, if it’s not fixed, this front path will be utterly useless, leading visitors straight into a pillar.

Or walk past the cute Victorian on 5th Street. Strangely askew, it seems frozen at the start of an unexpected metamorphosis.

[Image: Photo by Geoff Manaugh].

Geometrically, it’s a cube being forced to become a rhomboid by the movements of the fault it was unknowingly built upon, an architectural dervish interrupted before it could complete its first whirl.

Now look down at your feet at the ridged crack spreading through the asphalt behind you, perfectly aligned with the broken curbs and twisted homes on either side.

This is the actual Calaveras Fault, a slow shockwave of distortion forcing its way through town, bringing architectural mutation along with it.

[Images: The Calaveras Fault pushes its way through Hollister; photos by Geoff Manaugh].

The ceaseless geometric tumult roiling just beneath the surface of Hollister brings to mind the New Orleans of John McPhee, as described in his legendary piece for The New Yorker, “Atchafalaya.”

There, too, the ground is active and constantly shifting—only, in New Orleans, it’s not north or south. It’s up or down. The ground, McPhee explains, is subsiding.

“Many houses are built on slabs that firmly rest on pilings,” he writes. “As the turf around a house gradually subsides, the slab seems to rise.” This leads to the surreal appearance of carnivalesque spatial side-effects, with houses entirely detached from their own front porches and stairways now leading to nowhere:

Where the driveway was once flush with the floor of the carport, a bump appears. The front walk sags like a hammock. The sidewalk sags. The bump up to the carport, growing, becomes high enough to knock the front wheels out of alignment. Sakrete appears, like putty beside a windowpane, to ease the bump. The property sinks another foot. The house stays where it is, on its slab and pilings. A ramp is built to get the car into the carport. The ramp rises three feet. But the yard, before long, has subsided four. The carport becomes a porch, with hanging plants and steep wooden steps. A carport that is not firmly anchored may dangle from the side of a house like a third of a drop-leaf table. Under the house, daylight appears. You can see under the slab and out the other side. More landfill or more concrete is packed around the edges to hide the ugly scene.

Like McPhee’s New Orleans, Hollister is an inhabitable catalog of misalignment and disorientation, bulging, bending, and blistering as it splits right down the middle.

And there’s more. Stop at the north end of 6th Street, for example, just across from Dunne Park, and look back at the half-collapsed retaining wall hanging on for dear life in front of number 558.

It looks like someone once backed a truck into it—but it’s just evidence of plate tectonics, the ground bulging northward without regard for bricks or concrete.

[Images: A fault-buckled wall and sidewalk bearing traces of planetary forces below; photos by Geoff Manaugh].

In fact, follow this north on Google Maps and you’ll find a clean line connecting this broken wall to the jagged rupture crossing the street in the photographs above, to the paper-thin fault dividing the house from its own front walk on Locust Avenue.

So what’s happening to Hollister?

“Fault creep” is a condition that results when the underlying geology is too soft to get stuck or to accumulate tectonic stress: in other words, the deep rocks beneath Hollister are slippery, more pliable, and behave a bit like talc. Wonderfully but unsurprisingly, the mechanism used to study creep is called a creepmeter.

The ground sort of oozes past itself, in other words, a slow-motion landslide at a pace that would be all but imperceptible if it weren’t for the gridded streets and property lines being bent out of shape above it.

[Image: A curb and street drain popped far out of alignment in Hollister; photo by Geoff Manaugh].

In a sense, Hollister is an urban-scale device for tracking tectonic deformation: attach rulers to its porches and curbs, and you could even take measurements.

The good news is that the large and damaging earthquakes otherwise associated with fault movement—when the ground suddenly breaks free every hundred years or so in a catastrophic surge—are not nearly as common here.

Instead, half a town can move north by more than an inch every five years and all that most residents will ever feel is an occasional flutter.

[Images: Crossing onto the Pacific Plate (heading west) in Parkfield; photo by Geoff Manaugh].

I spoke with Andy Snyder from the U.S. Geological Survey about the phenomenon.

Snyder works on an experiment known as the San Andreas Fault Observatory at Depth, or SAFOD, which has actually drilled down through the San Andreas Fault to monitor what’s really happening down there, studying the landscape from below through sensitive probes installed deep in the active scar tissue between tectonic plates.

On Snyder’s advice, I made my way out to one of the greatest but most thoroughly mundane monuments to fault creep in the state of California. This was in Parkfield, a remote town with a stated population of 18 where Snyder and SAFOD are both based, and where fault creep is particularly active.

In Parkfield there is a remarkable road bridge: a steel structure that has been anchored to either side of the San Andreas Fault like a giant, doomed staple. Anyone who crosses it in either direction is welcomed onto a new tectonic plate by friendly road signs—but the bridge itself is curiously bent, warped like a bow as its western anchorage moves north toward San Francisco.

It distorts more and more every day of the month, every year, due to the slow effects of fault creep. Built straight, it is already becoming a graceful curve.

[Image: Looking east at the North American Plate in Parkfield; photos by Geoff Manaugh].

Parkfield is also approximately where fault creep begins in the state, Snyder explained, marking the southern edge of a zone of tectonic mobility that extends up roughly to Hollister and then begins again on a brief stretch of the Hayward Fault in the East Bay.

Indeed, another suggestion of Snyder’s was that I go up to visit a very specific corner in the city of Hayward, where the curb at the intersection of Rose and Prospect Streets has long since been shifted out of alignment.

Over the past decade—most recently, in 2011—someone has actually been drawing little black arrows on the concrete to help visualize how far the city has drifted in that time.

The result is something like an alternative orientation point for the city, a kind of seismic meridian—or perhaps doomsday clock—by which Hayward’s ceaseless cleaving can be measured.

[Images: A moving curb becomes an inadvertent compass for measuring seismic energy in Hayward; photos by Geoff Manaugh].

Attempting to visualize earthquakes on a thousand-year time span, or to imagine the pure abstraction of seismic energy, can be rather daunting; this makes it all the more surprising to realize that even the tiniest details hidden in plain sight, such as cracks in the sidewalk, black sharpie marks on curbs, or lazily tilting front porches, can actually be real-time evidence that California is on the move.

But it is exactly these types of signs that function as minor landmarks for the seismic tourist—and, for all their near-invisibility, visiting them can still provide a mind-altering experience.

Back in Hollister, Snyder warned, many of these already easily missed signs through which fault creep is made visible are becoming more and more hard to find.

The town is rapidly gentrifying, he pointed out, and Hollister’s population is beginning to grow as its quiet and leafy streets fill up with commuters who can no longer afford to live closer to Silicon Valley or the Bay. This means that the city’s residents are now just a bit faster to repair things, just a bit quicker to tear down structurally unsound houses.

One of the most famous examples of fault creep, for example—a twisted and misshapen home formerly leaning every which way at a bend in Locust Avenue—is gone. But whatever replaces it will face the same fate.

After all, the creep is still there, like a poltergeist disfiguring things from below, a malign spirit struggling to make itself visible.

Beneath the painted eaves and the wheels of new BMWs, the landscape is still on the move; the deformation is just well hidden, a denied monstrosity reappearing millimeter by millimeter despite the quick satisfaction of weekend repair jobs. Tumid and unstoppable, there is little that new wallpaper or re-poured driveways can do to disguise it.

[Image: Haphazard concrete patchwork in a formerly straight sidewalk betrays the slow action of fault creep; photo by Geoff Manaugh].

Snyder remembered one more site in Hollister that he urged me to visit on my way out of town.

In the very center of Hollister’s Dunne Park, a nice and gentle swale “like a chaise longue,” in his words, has been developing.

Expecting to find just a small bump running through the park, I was instead surprised to see that there is actually a rather large grassy knoll forming there, a rolling and bucolic hill that few people would otherwise realize is an active tectonic fault.

[Image: A fault-caused grassy knoll rises in the center of Dunne Park in Hollister; photo by Geoff Manaugh].

In fact, he said, residents have been entirely unperturbed by this mysterious appearance of a brand new landform in the middle of their city, seeing it instead as an opportunity for better sunbathing. Fault creep is not without its benefits, he joked.

Snyder laughed as he described the sight of a dozen people and their beach towels, all angling themselves upward toward the sun, getting tan in a mobile city with the help of plate tectonics.

[Note: An earlier version of this piece was first published on The Daily Beast (where I did not choose the original headline). I owe a huge thanks to Andy Snyder for the phone conversation in which we discussed fault creep; and the book Finding Fault in California: An Earthquake Tourist’s Guide by Susan Elizabeth Hough was also extremely useful. Finally, please also note that, if you do go to Hollister or Hayward to photograph these sites, be mindful of the people who actually live there, as they do not necessarily want crowds of strangers gathering outside their homes].

It Came From Below

Formless and ancient things from the depths of our planet move beneath Los Angeles, unexpectedly setting fire to sidewalks and burning whole businesses to the ground. Welcome to urban life atop a still-active oil field.

This post was originally published on The Daily Beast.

Sliding around beneath the surface of Los Angeles is something dark, primordial, and without clear form. It seeps up into the city from below through even the smallest cracks and drains. Infernal, it can cause fires and explosions; toxic, it can debilitate, poison, and kill.

Near downtown Los Angeles, at 14th Place and Hill Street, a small extraction firm called the St. James Oil Corporation runs an active oil well. In 2006, the firm presided over a routine steam-injection procedure known as “well stimulation.” The purpose was simple: a careful and sustained application of steam would heat up, liquefy, and thus make available for easier harvesting some of the thick petroleum deposits, or heavy oil, beneath the neighborhood.

But things didn’t quite go as planned. As explained by the Center for Land Use Interpretation—a local non-profit group dedicated to documenting and analyzing land usage throughout the United States—“the subterranean pressure forced oily ooze and smells out of the ground,” causing a nauseating “goo” to bubble over “into storm drains, streets, and basements” as far as two blocks away.

The sudden appearance of this black tide beneath the neighborhood even destabilized the nearby road surface, leading to its emergency closure, and 130 people had to be evacuated. It took weeks to pump these toxic petroleum byproducts out of the basements and to resurface the street; the firm itself was later sued by the city.

While this was an industrial accident, hydrocarbons are, in fact, almost constantly breaking through the surface of Los Angeles, both in liquid and gaseous form. These are commonly known as seeps, and the most famous example is also an international tourist attraction: the La Brea Tar Pits, with its family-friendly museum on Wilshire Boulevard.

The “tar” here is actually liquid asphalt or pitch, and it is one of many reasons why humans settled the region in the first place. Useful both for waterproofing and for its flammability, this sticky substance has been exploited by humans in the region for literally thousands of years—and it has also given L.A. some of its most impressive paleontological finds.

[Image: Tar pushes up through cracks in the sidewalk on Wilshire Boulevard, near the La Brea Tar Pits; photo by Geoff Manaugh].

In other words, precisely because they are so dangerous, the tar pits are a veritable archive of extinct species; these include mastodons, saber-toothed tigers, and dire wolves, examples of which have been found fatally mired in the black mess seeping up from the deep. Groups of these now long-dead creatures once wandered across an otherworldly landscape of earthquakes and extinct volcanoes, an active terrain pockmarked with eerie bubbling cauldrons of flammable liquid asphalt.

What’s so interesting about contemporary life in Southern California is that this surreal, prehistoric landscape never really went anywhere: it’s simply been relegated to the background, invisibly buried beneath strip malls, car dealerships, and sushi restaurants. Every natural tar seep and artificial oil well here can be seen as an encounter with this older, stranger world trying to break back through into our present experience.

What humans choose to do with this primordial stuff leaking through the cracks can often be almost comical. Architect Ben Loescher, who has given tours of the region’s oil infrastructure for the Center for Land Use Interpretation, points out that many buildings near Lafayette Park must contend with a constant upwelling of asphalt. He sent me a photograph showing a line of orange utility buckets arranged as an ingenious but absurd stopgap measure against the endless and unstoppable goo.

[Image: A makeshift system for capturing the near-constant tar and liquid asphalt leaking up from below a building near Lafayette Park; photo by Ben Loescher].

Nearby, Loescher added, parking lots are a great place to see the onslaught. Many are constantly but slowly flooding with tar and asphalt, to the point that one lot—run by a karaoke club—is struck so badly that the tar is actually visible on Google Maps. “That parking lot is riddled with seeps, as well. When it gets hot, the parking lot sort of re-asphalts itself,” Loescher explains, “and they have to put down tarps on top of it so the cars don’t get stuck.” A much larger gravel lot across the street also exhibits multiple sites of seepage, as if pixelating from below with black matter.

Loescher emphasized that these sites are by no means limited to the La Brea Tar Pits. They can be found throughout the Los Angeles basin, beneath sidewalks, yard, parking lots, and even in people’s basements. To exaggerate for dramatic effect, it’s as if the premise of The Blob was at least partially inspired by a true story—one that has been taking place for hundreds of thousands of years throughout Southern California, and that involves, instead of a visitor from space, something ancient and pre-human forcing its way up from below.

[Image: Liquid asphalt leaking upward into the parking lot of a Los Angeles karaoke club; photo by Geoff Manaugh].

In a short book called Making Time: Essays on the Nature of Los Angeles, writer William L. Fox explores the remnant gas leaks and oil seeps of the city. At times, it reads as if he is describing the backdrop of a Hieronymus Bosch painting. Such is the strange and permanent apocalypse of 21st-century L.A.

Fox writes, for example, that “a methane vent opened up in the middle of Fairfax Street” back in 1985, and that it “burned uncontrollably for days before it could be put out.” At night, it was a world lit by flames. Astonishingly, he adds, in 1962 “a Hawthorne woman had a fire under her house—a house with no basement. She located the source of the problem when she went outside and touched a match to a crack in the sidewalk: A flame ran down to it.”

This city where sidewalks burn and sewers fill with oily ooze is a city built here almost specifically for that very reason; Los Angeles, in many ways, is a settlement founded on petroleum byproducts, and the oil industry for which the city was once known never actually left. It just got better at hiding itself.

It is already well known that there are oilrigs disguised in plain sight all over the city. The odd-looking tower behind Beverly Hills High School, for example, is actually a camouflaged oilrig; an active oil field runs beneath the classrooms and athletic fields. Even stranger, the enormous synagogue at Pico and Doheny is not a synagogue at all, but a movable drilling tower designed to look like a house of worship, as if bizarre ceremonies for conjuring a literal black mass out of the bowels of the Earth take place here, hidden from view. If you zoom in on Google Maps, you can just make out the jumbles of industrial machinery tucked away inside.

However, amidst all of this still-functional oil infrastructure, there are ruins: abandoned wells, capped drill sites, and derelict pumping stations that have effectively been erased from public awareness. These, too, play a role in the city’s subterranean fires and its poisonous breakouts of black ooze.

As Fox explains in Making Time, a labyrinth of aging pipelines and forgotten wells crisscrosses the city. He explains that the Salt Lake Oil Field—which underlies the La Brea Tar Pits, sprawls below an outdoor shopping center known as The Grove, and continues deep into the surrounding neighborhoods—once contained as many as 1,500 operative oil wells. However, most of these “have long since been abandoned and are virtually invisible,” he writes, and, alarmingly, “roughly 300 are unaccounted for.”

These “unaccounted for” oil wells are out of sight and out of mind—but it should not be assumed that they are safely or permanently capped. Indeed, the Salt Lake Oil Field actually “appears to be repressurizing with oil and water,” like an underground blister come back to life, Fox writes. This only raises the stakes of “a hazard already complicated by the lack of knowledge about the exact location of all the wells on the property.” Only 10 years ago, for example, “an orphaned well in Huntington Beach blew out in a gusher forty feet high, spraying oil and methane over one-half square mile, a hazardous-waste problem that will become more common.”

[Image: The Baldwin Hills old field; photo by Geoff Manaugh].

Due to its centrality, the Salt Lake field plays an outsized role in terms of strange petroleum events in the city. The Salt Lake was behind the multiday methane fire in the middle of Fairfax Avenue, for example, and behind arguably the most well known and certainly most destructive reminder of the city’s subterranean presence.

In 1989, in a busy strip mall at Fairfax and 3rd Street, a Ross Dress for Less began to fill with methane gas leaking up from a large pocket connected to the oil field below. Somehow, it had broken through the natural clay boundary that should have held it in place, and the methane thus easily seeped up into the storage rooms, closets, and retail galleries of the discount clothing giant.

Before long, the methane ignited and the entire store blew up.

[Image: Screen grab from YouTube].

This was by no means an insubstantial explosion—you should watch the aftermath on YouTube—as the entire façade of the building was blown to pieces, the roof collapsed, and dozens of people were disfigured by the detonation.

The resulting fires burned for hours. Small fires roared out of nearby sewer grates, and red and orange flames flickered out of even the tiniest cracks in the sidewalk, like some weird vision of Hell burning through the discount blouses and cheap drywall of this obliterated shopping center.

[Image: Flames burn through cracks in the sidewalk; screen grab from YouTube].

While reporting the tragedy, a local newscaster worryingly informed his viewers that it was simply “too early to tell where or when [the methane] might surface again”—in other words, that there could very well be further explosions. This paranoia—that there is something down there, some inhuman Leviathan stirring beneath the city, and that no one really knows when and where it will strike next—continues to this day.

Even at the time of the explosion, the possibility that city workers might inadvertently drill into a methane pocket beneath the neighborhood became one of the chief reasons for blocking the construction of a new subway line in the area. This same fear has recently resurfaced as the number one excuse for blocking a proposed subway through Beverly Hills.

Back in 2012, local parents released a video urging the city to stop the expansion of subterranean public transit through their neighborhood, concerned that it would cause Beverly Hills High School to explode. (The fact that stopping the subway would also keep certain economic undesirables out of their streets and shopping districts was just a fringe benefit.)

In any case, the narrative resonance of all this is impossible to deny. Formless and ancient things from the depths of our planet move beneath the city, unexpectedly setting fire to sidewalks and burning whole businesses to the ground. Taken out of context, this could be the plot of a new horror film—but it’s just urban life atop a still-active oil field.

As Matthew Coolidge, director of the Center for Land Use Interpretation, explained it to me, the city “is really just a giant scab of petroleum-fueled activities,” an impermanently sealed cap atop this buried monstrosity.

It is worth considering, then, next time you step over a patch of tar on the sidewalk, that the black gloom still bubbling up into people’s yards and basements, still re-asphalting empty gravel parking lots, is actually an encounter with something undeniably old and elementally powerful.

In this sense, Los Angeles is more than just a city; it is a kind of interface between a petrochemical lifestyle of cars and freeways and the dark force that literally fuels it, a subterranean presence that predates us all by millions of years and that continues to wander freely beneath L.A.’s tangled streets and buildings.

(Note: This piece was originally published on The Daily Beast. I have also written about the La Brea Tar Pits and William L. Fox’s book in Landscape Futures. Opening image: a close-up of Hell, from “The Garden of Earthly Delights” by Hieronymous Bosch, Museo del Prado, Madrid, Spain).

Intermediary Geologies

[Image: From “H / AlCuTaAu” by Revital Cohen and Tuur Van Balen].

For a project called “H / AlCuTaAu”—named after the chemical elements that comprise its final form—artists Revital Cohen and Tuur Van Balen created what they call “an artificial mineral mined from technological artefacts.”

[Image: From “H / AlCuTaAu” by Revital Cohen and Tuur Van Balen].

As they explain in the accompanying, very brief artists’ statement, “Precious metals and stones were mined out of technological objects and transformed back into mineral form. The artificial ore was constructed out of gold (Au), copper (Cu), tantalum (Ta), aluminium (Al) and whetstone; all taken from tools, machinery and computers that were sourced from a recently bankrupt factory.”

Of course, our devices have been geology all along—refined aggregates of the Earth’s surface repurposed as commercial properties and given newfound electrical life—but it’s incredibly interesting to reverse-engineer from our phones, circuitboards, and hard drives entirely new mineral compounds.

[Image: From “H / AlCuTaAu” by Revital Cohen and Tuur Van Balen].

The project also—albeit in the guise of speculative art—very much implies the future of metal recycling, where our future “mines” are as likely to look like huge piles of discarded electronics as they are to be vast holes in the Earth.

In the same way that some of you might have tumbled rocks on your childhood desks for weeks at a time to scrape, abrade, and polish them down to a sparkling sheen, perhaps the mineworks of tomorrow will be benchtop recycling units extracting rare earth metals from obsolete consumer goods.

Armed with drills and ovens, we’ll just cook our own devices down to a primordial goo that can be selectively reshaped into objects.

[Images: From “H / AlCuTaAu” by Revital Cohen and Tuur Van Balen].

You might recall the discovery of so-called “plastiglomerates.” As Science reported last summer, a “new type of rock cobbled together from plastic, volcanic rock, beach sand, seashells, and corals has begun forming on the shores of Hawaii.” Part plastic, part rock, plastiglomerates are the new geology.

Put another way, this is terrestrial science in the age of the Anthropocene, discovering that even the rocks around us are, in a sense, artificial by-products of our own activities, industrial materials fossilized in an elaborate planetary masquerade that now passes for “nature.”

[Image: A “plastiglomerate”—part plastic, part geology—photographed by Patricia Corcoran, via Science].

Here, however, in Cohen’s and Van Balen’s work, these new, artistically fabricated conglomerates are more like alchemical distillations of everyday products: phones, radios, and computers speculatively cooked, simmered, bathed, acid-etched, and reworked into an emergent geology.

[Image: From “H / AlCuTaAu” by Revital Cohen and Tuur Van Balen].

It is a geology hidden all along in the objects we use, communicate with, and sell, a reduced mineralogy of electronics and machines that will someday form a new layer of the Earth.

(Via The New Aesthetic).

American Mine

[Image: “American Mine (Carlin, Nevada 2, 2007)” by David Maisel].

The following essay was previously published under the title “Infinite Exchange” in Black Maps by David Maisel (Steidl), as well as in Cabinet Magazine #50.

1.
In a 2011 paper on the medical effects of scurvy, author Jason C. Anthony offers a remarkable detail about human bodies and the long-term presence of wounds.

“Without vitamin C,” Anthony writes, “we cannot produce collagen, an essential component of bones, cartilage, tendons and other connective tissues. Collagen binds our wounds, but that binding is replaced continually throughout our lives. Thus in advanced scurvy”—reached when the body has gone too long without vitamin C—“old wounds long thought healed will magically, painfully reappear.”

In a sense, there is no such thing as healing. From paper cuts to surgical scars, our bodies are catalogues of wounds: imperfectly locked doors quietly waiting, sooner or later, to spring back open.

[Image: “American Mine (Carlin, Nevada 5, 2007)” by David Maisel].

2.
The Carlin Trend was discovered in north-central Nevada, near the town of Elko, in 1962. Some fifty years later, at this time of writing, it remains one of the world’s largest actively mined deposits of gold ore. In fact, the region has become something of a category-maker in the gold industry today, which describes analogous landscapes and ore bodies as “Carlin-type” deposits. The Carlin Trend is a standard, in other words: a referent against which others are both literally and rhetorically measured.

The trend’s discovery and subsequent exploitation—and the extraordinary negative landforms that have resulted from its exhumation—has been a story of nineteenth-century U.S. mining laws, legally dubious provisions governing public land, extraction industry multinationals, advanced geological modeling software, specialty equipment few people can name let alone operate, and genetically modified bacteria mixed into vats of gold-harvesting slurry.

[Image: “American Mine (Carlin, Nevada 1, 2007)” by David Maisel].

Writing in 1989, John Seabrook of The New Yorker pointed out that, in the previous eight years alone, more gold had been mined from the Carlin Trend “than came out of any of the bonanzas that feature so prominently in our national mythology, including the California bonanza of 1849.” That’s because gold in the region is all but ubiquitous, peppered and snaked throughout Nevada:

There is gold in the Battle Mountain Formation, the range that runs southeast of town; gold in the alluvium to the west; gold in the Black Rock Desert to the northwest; gold in the Sheep Creek Range and in the Tuscarora Mountains to the northeast. The Tuscaroras are especially rich. Along the Carlin Trend, a forty-mile stretch of this range, are twelve deposits. Some people believe that a much richer swatch of ore, a deposit to rival South Africa’s Gold Reef, runs unbroken under the Carlin Trend, perhaps three thousand feet down—more than three times as deep as the deepest mines there now go.

“Some people believe”: more is hidden in the apparent neutrality of Seabrook’s phrase than we might at first suspect. Mining for gold—the actual, violent excision of waste rock from the earth, searching for ore—is never a question of finding a perfect, shiny lump of solid metal and carefully, surgically removing it from the planet. Gold is diffuse. It is now more often mined as particles, not blocks or even nuggets. Like glitter, it is scattered throughout the rocks around it.

In fact, the presence of gold, in many cases, can only be inferred. The angle at which local rock strata dip back into the planet, the direction water flows through the landscape, or the complex of other minerals and crystals locked in the rocks underground: these all, to varying degrees, act as telltale signatures for the famously coy king of metals.

[Image: “American Mine (Carlin, Nevada 18, 2007)” by David Maisel].

Looking for these signatures entails a peculiar mix of local folklore and verified science, and the hunt—sometimes life-consuming, sometimes maddening—for signs is exhaustively documented by what Seabrook calls “prospecting paraphernalia: geological reports, assay figures, maps, contracts, aerial photographs, electromagnetic surveys, gravitometer readings, lawsuits, letters from people who think they have gold on their property, letters from people who know people who have gold on their property.”

Gold is less discovered, we might say, than interpreted.

The Carlin Trend has thus served as a test site, now in its fifty-first year, for various interpretive techniques, both scientific and superstitious. Specialty journals refer to the region’s “geochemical patterns”—only fragments of which are available to them to analyze for “the characteristics, signatures, and genesis of Nevada’s world-class gold systems”—the idea being that these might be found again elsewhere and thus be more instantly recognizable. Geologists track concentrations, contours, “metal zones,” and mineralized fractures; they build models of “stacked geochemical anomalies” in the earth below, hoping to piece together an accurate model of the gold ore’s location.

[Image: “American Mine (Carlin, Nevada 8, 2007)” by David Maisel].

Where the gold came from in the first place is yet another interpretive preoccupation. A paper—forthrightly titled “Is the Ancestral Yellowstone Hotspot Responsible for the Tertiary ‘Carlin’ Mineralization in the Great Basin of Nevada?”—suggests that the gold of the Carlin Trend is actually a thermal after-effect, or geochemical ghost, of the still-nomadic Yellowstone hotspot that once pulsed and geysered beneath Nevada.

The language used to describe these deposits is often extraordinary. We read, for instance, that discontinuous ore bodies apparently produced at different “stages of mineralization” in the earth’s history might, in fact, be “part of a single event that evolved chemically through time.” That is, one state-sized geological event—with titanic embryos merging and splitting inside the earth—delicately infused into the landscape from below as slow pulses of mineral-rich magmatic fluid freeze into spidery veins of precious metal. Or we read about “anomaly-related mineral assemblages,” millions of years’ worth of “mineralizing events,” and “geochemical halos in this part of the Carlin Trend.” Industrial descriptions of the earth’s interior lend an unexpected poetry to the act of mining.

Another way of saying all this is that mind-bogglingly large terrestrial events, occurring invisibly below ground in rock formations we can only measure indirectly—scanning the earth for hidden signatures—produce ore bodies, the excavation, dismemberment, and eventual global distribution of which shapes human economic history in turn.

[Image: “American Mine (Carlin, Nevada 10, 2007)” by David Maisel].

In any case, the form of a gold deposit itself must be mapped and clarified before excavation can begin. The shape of the ensuing pit is not the result of frantic, directionless digging, but of a carefully controlled design process. The word “design” is used deliberately here, even if the shape of the pit is orchestrated not by aesthetics but by the needs of financial rationality. Using proprietary graphics software—similar in function to visual effects programs used in film, gaming, and architecture—the ore body is predictively 3D-modeled.

Mining, at this point, becomes less an act of extraction than of physical verification: machines and their profit-minded operators pursue the outlines of a virtual form by gradually expanding the mine’s target zones, in effect checking to see if the geologists’ models were right.

As architect Liam Young suggested in a recent interview, conducted after he returned from leading a group of design students on a research trip to the gold mines of Western Australia,

mining engineers are basically designers. They develop all these fragmentary data into models, which become the design of the pit itself. … But then what happens is, based on gold prices, the pit model changes. In other words, if the gold price or the mineral price is higher, then the pit gets wider as it becomes cost-effective to mine areas of lower concentration. This happens nearly in real time—the speed of the machines digging the pit can change over the course of the day based on the price of gold, so the geometry of the pit is utterly parametric, modeling these distant financial calculations.

In essence, Young suggests, mining engineers produce and explore speculative models of gold distribution in the rocks below ground. Using surprisingly low-res data taken from seismic tests and weighing that data against equipment availability, labor costs, and, most importantly, the internationally recognized price of gold, the extraordinary ballet of machines can begin.

This then becomes predictive on a much larger scale, as well. By constantly refining their models of how exactly gold forms in the first place, and where and how it can be mined most effectively, geologists can understand where—and, to some extent, predict when—future ore bodies might accumulate. Interestingly, these future deposits will appear on a timescale that far exceeds human civilization—so, while human miners most likely won’t be around to exploit them, it’s nonetheless intriguing to know that serpent-like veins of precious metal are incubating in the darkness beneath us.

[Images: (top) “American Mine (Carlin, Nevada 12, 2007)“; (bottom) “American Mine (Carlin, Nevada 13, 2007),” by David Maisel].

Here we return to Seabrook, who warns that “there is a good deal of poetry in these figures,” of ounces mined and subterranean veins discovered. “They are based on statistical models, a kind of three-dimensional game of connect the dots played by a computer.”

These are then treated explicitly and formally as works of art: Seabrook points out “a computer-generated three-dimensional picture of the ore body, dry-mounted and framed,” hanging on a geologist’s office wall. Call it the new Subterranean Romantic:

Mining people have a habit of stretching the metaphor when they talk about their ore bodies. They say how beautiful, how satisfying, how tantalizing their ore body is, they make hourglass shapes with their hands, knead with their fingers, smooth with their palms as they talk.

These gorgeous bodies, removed from the earth, leave scars: precisely designed but roughly implemented holes—exit wounds of temporally contingent value—clearly and deliriously visible from above.

[Images: “American Mine (Carlin, Nevada 12, 2007)” by David Maisel].

3.
The very idea that gold has value is a funny thing. Aside from a few basic industrial uses, gold’s value is almost entirely ornamental—that is, it is agreed upon by financial traders and metals futures markets, even if no actual gold changes hands. Gold comes out of one, very carefully designed hole in the ground—whether in Nevada, South Africa, or Western Australia—only, most likely, to be interred again in another part of the world in a bank vault or federal reserve, where it is precisely gold’s removal from direct exchange that augments its value and its mystery.

Mystery is not used lightly. In his odd but insightful study of the various symbolic entanglements between gold, cocaine, violence, and colonial labor in South America, anthropologist Michael Taussig writes, with suitably mythic overtones: “How perfect is gold, the great shape-changer, the liquid metal, the formless form.”

This “formless form,” however, undergoes a strange—we might say alchemical—transformation, from shining metal to the rarefied super-object known as money. In a long description based on a memoir by Captain Amasa Delano, Taussig recounts the nineteenth-century process of minting coins from gold bullion:

The gold ore was wetted and kneaded by blacks treading on it with their feet on a paved brick surface after which they put mercury on it so as to separate out the gold. Then the metal was heated, becoming red as blood. To get the liquid metal to run from its crucible, the spout was touched with a stick with a piece of cloth around it. When this stick made contact, there was a flash and the metal began to run in a stream not much thicker than a pipe stem. The bars of gold formed were subsequently squeezed flat by rollers until the thickness of a dollar or doubloon, by which time the bars had become sheets four feet long. A powerful press cut coins out from these thin sheets like a cookie cutter, and the pieces were turned to receive a milled edge. Then came the weighing.

For Taussig, this process reveals the machinations “both mysterious and everyday” by which a mineral becomes money—that is, how “gold and silver coins become enchanted, material things, aglow with a power emanating from deep within.” This base matter has been transformed, given exchange-value through formal regularity and sent off to participate in a global system of monetary transactions.

Gold coins are thus but one of the “minutiae in which the supernatural is secularized”: a haunted mineral is pulled from the earth and given an uncanny second life elsewhere.

[Image: “American Mine (Carlin, Nevada 22, 2007)” by David Maisel].

The spectral mathematics that can turn reserves of gold into abstract instruments of monetary exchange—into financial products and debt instruments, derivatives and funds—operates through a barely comprehensible carnival of surrogates flashing back and forth through the global marketplace. Until the end of the Bretton Woods system in August 1971, when the US dollar was unilaterally decoupled from the international gold standard, gold served as a reliable, universally recognized equivalent for economic exchange.

Gold, in the words of Jean-Joseph Goux, himself citing Marx, had value precisely because it could so effectively disappear into the “circulation of substitutes.” This is a logic of exchange by which Object A can be traded for Object B, as long as we agree that Object B also refers, off-stage, to something else entirely: some standard or reserve for which it acts as a practical surrogate.

Before 1971, that off-stage presence—that silent original, sleeping in a state of eternal reservation—was gold.

[Image: “American Mine (Carlin, Nevada 20, 2007)” by David Maisel].

To say, then, that there is an “economy” is thus to use shorthand for what Goux describes as “a regulated process of equivalents and substitutions,” whereby stand-ins, equivalents, and acceptable replacements all interact in occulted reference to an absentee original. The natural hard matter of gold, artificially extracted from the earth, thus becomes caught up in a supernatural system of objects: coins, bills, and derivatives—future duplicates and doubles.

In this context, the ongoing attempts to return the United States to the gold standard—by, for instance, perennial Republican presidential candidate Ron Paul—can be seen as an almost folkloristic attempt to put the genie of infinite derivative exchange back in the bottle.

Sites like Nevada’s Carlin Trend thus serve as base points for this process, emitting endless phantasms in an economic fiction of equivalents—derivative products that refer to one another in a superstition of indirect exchange referred to as the economy—to such an extent that we might say these mines can never be refilled. Or, more accurately, they can only be overfilled, stuffed beyond capacity with the carnival of substitutes their hollowing-out has, however inadvertently, unleashed.

[Image: “American Mine (Carlin, Nevada 7, 2007)” by David Maisel].

4.
In 2007, David Maisel began work on a group of photographs called “American Mine,” part of a larger and older series known as “The Mining Project.” These images document, in extraordinary abstract swaths of color, the emergent geometries of mines along the Carlin Trend.

Scattered across Maisel’s images is a forensic survey of cuts and incisions—wounds that will outlive us, scars that won’t go away—older surgeries through which modernity has, in effect, been created. The mines of the Carlin Trend remain unhealed—in fact, year on year, they are growing—a raw scurvy of rocks exposed on a scale so monumental that geologists estimate mines, not cities, will be the final trace of humanity left visible in a hundred million years’ time.

[Image: “American Mine (Carlin, Nevada 17, 2007)” by David Maisel].

Vast terraced bowls step down—and down and, impossibly, further down—tracking dead faults and mineralization fronts on a scale only made clear when we notice 16-ton trucks like specks of dust on canyon walls. Discolored oceans of chemical runoff wash across vehicle tracks with acid tides. Retaining walls and stabilized slopes loom over assembled superscapes of mine detritus, abandoned shells of industrial insects dwarfed by the world they’ve helped create.

In these scenes, geotextile mats have all but replaced the earth’s surface, offering instead a deathless, replicant topography. Artificial hills, each uncannily and exactly like its neighbor, roll from one side of the frame to the other, shifting in tandem with commodities prices, their malleable geography thus forever resistant to mapping. The mines grow and metastasize as voids: storm fronts of negative space exploding with their own slow thunder into the planet.

[Image: “American Mine (Carlin, Nevada 14, 2007)” by David Maisel].

What is of particular interest in Maisel’s “American Mine” series is its revelation of the injuries at the start of the commodity chain: planetary wounds, seemingly beyond the breadth of nature, out of which commodities have been extracted for later exchange.

The production of economically recognizable objects can thus be seen as a kind of terrestrial focusing: out of the chaos of the mine site, with great lakes clouded by geochemical effluent and abstract landforms like ritual mounds from human prehistory, pristine products eventually emerge, assembled from these heavy elements torn so roughly from the ground. Out of the carcinogenic discord of rock dust, circuit boards appear.

In a sense, it is surprising that the computers, phones, batteries, television sets, and other mundane electronics that fill the markets of the world are so free of this fallout, so astringently cleansed of the geological evidence of their own creation. Or perhaps we might say that it is precisely this stripping-away of a product’s elemental birth that gives it its later value and utility. Such products are ironically de-terrestrialized: washed of the very planet from which they came.

• • • 

I owe a huge thank you to David Maisel and editor Alan Rapp for inviting me to participate in the Black Maps book, which is an absolutely gorgeous compendium of Maisel’s work, as well as to Sina Najafi for his editorial feedback before this essay ran in Cabinet Magazine. You can see some photos of Black Maps over at the publisher’s website.

For those of you in Los Angeles, meanwhile, Maisel has a new show opening this spring—on March 26th, 2015—at the Mark Moore Gallery. Check back at this link in the weeks to come for more information.

Finally, if you would like to read some previous posts here on BLDGBLOG about Maisel’s work, don’t miss “The Fall” or “Library of Dust,” among many other short posts; and be sure to read the interview with David Maisel published in The BLDGBLOG Book.